Detection device for synthetic fiber fabric processing

Abstract

The invention relates to the technical field of fiber fabrics, in particular to a synthetic fiber fabric processing detection device which comprises a base plate, a top plate is mounted at the upper end of the base plate through a connecting frame, a detection mechanism is jointly arranged between the base plate and the top plate, a long groove is formed in the upper end of the top plate, and a driving mechanism is mounted at the upper end of the top plate. Compared with the prior art, the synthetic fiber fabric detection device is reasonable in structural design, after the synthetic fiber fabric is pressed and fixed through the fixing mechanisms, the detection efficiency is improved, and the detection efficiency is improved. Length stretching detection, toughness test and formaldehyde detection are synchronously carried out on the synthetic fiber fabric through the detection mechanism, the detection efficiency of the synthetic fiber fabric is effectively improved, the use effect is improved, the detection mechanism is driven by the driving mechanism to carry out multi-aspect detection on different positions of the synthetic fiber fabric, and the detection efficiency is improved. And the use effect is effectively improved.

Description

Technical Field

[0001] The present invention relates to the technical field of fiber fabrics, and in particular to a detection device for processing synthetic fiber fabrics. Background Art

[0002] Synthetic fiber fabrics are fabrics made of synthetic high-molecular compounds, and common ones include polyester, nylon, acrylic, chloroprene, vinylon, spandex, etc.; there are many types of synthetic fiber fabrics, and synthetic fiber fabrics are widely used in various fields. They are not only used in clothing, but also in home, medical, industrial and other fields. After the processing of synthetic fiber fabrics is completed, relevant detections are required, and the detection items include physical detection, chemical detection, dimensional detection, formaldehyde detection, etc.

[0003] In the prior art, the detection of the tensile resistance and formaldehyde of fabrics is usually carried out separately. The single function of the detection equipment makes the detection operation require more detection sites and detection cost expenditures, and at the same time, it will also reduce the detection efficiency of the detection equipment. Therefore, we provide a detection device for processing synthetic fiber fabrics to solve this problem. Summary of the Invention

[0004] The purpose of the present invention is to solve the defects existing in the prior art, and to propose a detection device for processing synthetic fiber fabrics to solve this problem.

[0005] In order to achieve the above purpose, the present invention adopts the following technical scheme:

[0006] Design a detection device for processing synthetic fiber fabrics, including a base plate. The upper end of the base plate is installed with a top plate through a connecting frame. A detection mechanism is jointly arranged between the base plate and the top plate. A long groove is arranged at the upper end of the top plate. A driving mechanism is installed at the upper end of the top plate. The driving mechanism passes through the long groove and is connected to the detection mechanism. Fixing mechanisms are symmetrically arranged between the base plate and the top plate;

[0007] The detection mechanism includes a box body connected to the driving mechanism. A maintenance door is movably installed on the outer side of the box body. Support plates are symmetrically installed on the outer side of the box body. A pressing component is installed at the lower end of one of the support plates. Pressing components are symmetrically installed at the upper end of the other support plate. Three groups of first moving grooves are arranged on the outer side of the box body. A displacement component is installed in the inner cavity of the box body. One end of the displacement component passes through the three groups of first moving grooves and is connected to the pressing component and the two pressing components.

[0008] Preferably, the driving mechanism includes a first servo motor installed at the upper end of the top plate. The output end of the first servo motor is connected to a lead screw. Two threaded blocks are screwed on the outer side of the lead screw. The lower end of the threaded block passes through the long slot and is connected to the box body. A fixed seat rotatably connected to the lead screw is installed at the upper end of the top plate.

[0009] Preferably, sliding grooves are symmetrically arranged on one side corresponding to each other between the substrate and the top plate. One end of each support plate is symmetrically installed with sliding bars slidably connected thereto.

[0010] Preferably, the upper pressing assembly includes a first outer shell installed at the lower end of the support plate. A first inner shell is movably arranged in the inner cavity of the first outer shell. A second moving groove is arranged on the outer side of the first outer shell. An upper arc-shaped pressing strip is installed at the lower end of the first inner shell. Suction fans are symmetrically installed on both sides of the first inner shell. A formaldehyde detector is installed in the inner cavity of the first inner shell.

[0011] Preferably, the lower pressing assembly includes a second outer shell installed at the upper end of the support plate. A second inner shell is movably arranged in the inner cavity of the second outer shell. A lower arc-shaped pressing strip is installed at the upper end of the second inner shell. Heaters are equidistantly installed at the bottom end of the inner cavity of the second inner shell. A third moving groove is arranged on the outer side of the second outer shell.

[0012] Preferably, heat dissipation grooves are equidistantly arranged on the outer side of the lower arc-shaped pressing strip. Heat absorption copper sheets are equidistantly connected in the inner cavity of the lower arc-shaped pressing strip.

[0013] Preferably, the displacement assembly includes a second servo motor installed in the inner cavity of the box body through a mounting plate. The output end of the second servo motor is connected to a rotating shaft. A gear is installed on the outer side of the rotating shaft. The gear is respectively meshed with a first toothed plate and a second toothed plate on both sides. The outer side of the first toothed plate passes through the first moving groove and the second moving groove through a first support rod and is connected to the first inner shell. A cross bar is connected to the outer side of the second toothed plate. The outer side of the cross bar passes through the first moving groove and the third moving groove through two second support rods respectively and is connected to the second outer shell.

[0014] Preferably, three groups of support blocks corresponding to the position of the first moving groove are installed in the inner cavity of the box body. A movable column is movably inserted in the middle of each support block. The upper end of one group of movable columns is connected to the first support rod. The lower ends of the other two groups of movable columns are respectively connected to the two second support rods. One end of each support block is connected to a spring. The other ends of the three groups of springs are respectively connected to one end of one group of first support rods and two groups of second support rods.

[0015] Preferably, the fixing mechanism includes a mounting base installed at the lower end of the top plate. Hydraulic cylinders are symmetrically installed at the lower end of the mounting base. The hydraulic cylinders are jointly connected to a pressing plate through hydraulic rods. A base is installed at the upper end of the substrate. The upper end of the base is provided with first clamping teeth. The upper end of the base is equidistantly provided with jacks. The lower end of the pressing plate is provided with second clamping teeth. The lower end of the pressing plate is equidistantly provided with insertion pins.

[0016] Preferably, limiting grooves are provided on the inner walls of the first outer shell and the second outer shell. Limiting blocks that are slidably connected thereto are connected to the outer sides of the first inner shell and the second inner shell.

[0017] A detection device for the processing of synthetic fiber fabrics proposed by the present invention has the following beneficial effects:

[0018] 1. The arc-shaped pressing strip on the detection mechanism presses down on the synthetic fiber fabric, and the two lower arc-shaped pressing strips both move upward to push and press the synthetic fiber fabric, making the synthetic fiber fabric gradually become taut for toughness strength detection. At this time, both sides of the synthetic fiber fabric start to be stretched, so that the synthetic fiber fabric undergoes a length stretching test. At the same time, after the lower arc-shaped pressing strip is heated, the heat is gradually conducted to the synthetic fiber fabric, facilitating the rapid temperature rise of this part of the synthetic fiber fabric area. Thus, the formaldehyde contained in the fabric emits at high temperature. Then, the suction fan sucks air in the direction of the heated area of the synthetic fiber fabric, so that the air containing formaldehyde is detected by the formaldehyde detector, and then the detected data is fed back to the formaldehyde detector device terminal, facilitating the staff to view and record, thereby facilitating the synchronous progress of length stretching detection, toughness testing, and formaldehyde detection of the synthetic fiber fabric, effectively improving the detection efficiency of the synthetic fiber fabric and enhancing the use effect;

[0019] 2. The output end of the first servo motor of the driving mechanism drives the lead screw to rotate, and the threaded block on the outer side of the lead screw then drives the box body and the entire detection mechanism to move left and right, facilitating driving the detection mechanism to perform multi-faceted detection on different positions of the synthetic fiber fabric, effectively improving the use effect;

[0020] 3. The hydraulic rod in the hydraulic cylinder of the fixing mechanism drives the pressing plate to move downward, and the second clamping teeth at the lower end of the pressing plate and the first clamping teeth at the upper end of the base clamp and press both ends of one side of the synthetic fiber fabric. Moreover, the second clamping teeth and the first clamping teeth are meshed and clamped with each other in an alternating manner, facilitating improving the fixing effect on the synthetic fiber fabric. At the same time, the insertion pins at the lower end of the pressing plate pierce the synthetic fiber fabric and then insert into the jacks at the upper end of the base, and then the pressing plate and the base clamp and press the synthetic fiber fabric, thereby further improving the pressing and fixing effect on the synthetic fiber fabric. Description of the Drawings

[0021] Figure 1Schematic diagram of the overall three-dimensional structure proposed by the present invention;

[0022] Figure 2 Schematic diagram of the partial three-dimensional structure proposed by the present invention;

[0023] Figure 3 Schematic diagram of the three-dimensional structure of the detection mechanism and the driving mechanism proposed by the present invention;

[0024] Figure 4 Schematic diagram of the partial internal display three-dimensional structure of the detection mechanism proposed by the present invention;

[0025] Figure 5 Schematic diagram of the internal three-dimensional structure of the box body proposed by the present invention;

[0026] Figure 6 Schematic diagram of the sectional three-dimensional structure of the partial detection mechanism proposed by the present invention;

[0027] Figure 7 Schematic diagram of the disassembled and sectional three-dimensional structure of the upper pressing component proposed by the present invention;

[0028] Figure 8 Schematic diagram of the sectional three-dimensional structure of the lower pressing component proposed by the present invention;

[0029] Figure 9 Schematic diagram of the three-dimensional structure of the fixing mechanism proposed by the present invention.

[0030] In the figure: substrate 1, connecting frame 2, top plate 3, detection mechanism 4, box body 41, support plate 42, slide bar 43, upper pressing component 44, first outer shell 441, first inner shell 442, second moving groove 443, upper arc-shaped pressing strip 444, suction fan 445, formaldehyde detector 446, lower pressing component 45, second outer shell 451, second inner shell 452, lower arc-shaped pressing strip 453, heat dissipation groove 454, heater 455, third moving groove 456, heat-absorbing copper sheet 457, maintenance door 46, displacement component 47, second servo motor 471, rotating shaft 472, gear 473, first toothed plate 474, second toothed plate 475, first support rod 476, cross bar 477, second support rod 478, first moving groove 48, support block 49, movable column 410, spring 411, driving mechanism 5, first servo motor 51, lead screw 52, fixed seat 53, threaded block 54, fixing mechanism 6, mounting seat 61, hydraulic cylinder 62, pressing plate 63, base 64, first clamping tooth 65, jack 66, second clamping tooth 67, insertion pin 68, long groove 7, sliding groove 8, limiting block 9, limiting groove 10 Detailed implementation manners

[0031] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0032] Referring to Figures 1-9 , a detection device for processing synthetic fiber fabrics, including a substrate 1. The upper end of the substrate 1 is installed with a top plate 3 through a connecting frame 2. A fixing mechanism 6 is symmetrically arranged between the substrate 1 and the top plate 3. The fixing mechanism 6 includes a mounting seat 61 installed at the lower end of the top plate 3. Hydraulic cylinders 62 are symmetrically installed at the lower end of the mounting seat 61. The hydraulic cylinders 62 are all connected with a pressing plate 63 through hydraulic rods. The upper end of the substrate 1 is installed with a base 64. The upper end of the base 64 is provided with first clamping teeth 65. The upper end of the base 64 is equidistantly provided with jacks 66. The lower end of the pressing plate 63 is provided with second clamping teeth 67. The lower end of the pressing plate 63 is equidistantly provided with insertion pins 68.

[0033] By placing both ends of a section of synthetic fiber fabric between the base 64 and the pressing plate 63 of the two fixing mechanisms 6, then starting the hydraulic cylinders 62 through an external control switch. The hydraulic cylinders 62 drive the pressing plate 63 to move downward through the hydraulic rods. The second clamping teeth 67 at the lower end of the pressing plate 63 and the first clamping teeth 65 at the upper end of the base 64 clamp and press both ends of one side of the synthetic fiber fabric. And the second clamping teeth 67 and the first clamping teeth 65 are meshed and clamped with each other in a staggered manner, which is convenient for improving the fixing effect on the synthetic fiber fabric. At the same time, the insertion pins 68 at the lower end of the pressing plate 63 pierce the synthetic fiber fabric and then insert into the jacks 66 at the upper end of the base 64. Then, the pressing plate 63 and the base 64 clamp and press the synthetic fiber fabric, thereby further improving the pressing and fixing effect on the synthetic fiber fabric.

[0034] A detection mechanism 4 is jointly arranged between the substrate 1 and the top plate 3. The detection mechanism 4 includes a box body 41 connected to a driving mechanism 5. A maintenance door 46 is movably installed on the outer side of the box body 41. Support plates 42 are symmetrically installed on the outer side of the box body 41. The lower end of one of the support plates 42 is installed with an upper pressing component 44. The upper end of the other support plate 42 is symmetrically installed with a lower pressing component 45. Three groups of first moving grooves 48 are arranged on the outer side of the box body 41. A displacement component 47 is installed in the inner cavity of the box body 41. One end of the displacement component 47 passes through the three groups of first moving grooves 48 and is connected to the upper pressing component 44 and the two lower pressing components 45.

[0035] The upper pressing component 44 includes a first outer shell 441 installed at the lower end of the support plate 42. A first inner shell 442 is movably arranged in the inner cavity of the first outer shell 441. A second moving groove 443 is arranged on the outer side of the first outer shell 441. The lower end of the first inner shell 442 is installed with an upper arc-shaped pressing strip 444. Suction fans 445 are symmetrically installed on both sides of the first inner shell 442. A formaldehyde detector 446 is installed in the inner cavity of the first inner shell 442.

[0036] The pressing-down component 45 includes a second outer shell 451 installed at the upper end of the support plate 42. A second inner shell 452 is movably arranged in the inner cavity of the second outer shell 451. A lower arc-shaped pressing strip 453 is installed at the upper end of the second inner shell 452. Heaters 455 are equidistantly installed at the bottom end of the inner cavity of the second inner shell 452. A third moving groove 456 is arranged on the outer side of the second outer shell 451. Heat dissipation grooves 454 are equidistantly arranged on the outer side of the lower arc-shaped pressing strip 453. Heat-absorbing copper sheets 457 are equidistantly connected in the inner cavity of the lower arc-shaped pressing strip 453.

[0037] The displacement component 47 includes a second servo motor 471 installed in the inner cavity of the box body 41 through a mounting plate. The output end of the second servo motor 471 is connected to a rotating shaft 472. A gear 473 is installed on the outer side of the rotating shaft 472. A first toothed plate 474 and a second toothed plate 475 are respectively engaged on both sides of the gear 473. The outer side of the first toothed plate 474 is connected to the first inner shell 442 through a first support rod 476 passing through the first moving groove 48 and the second moving groove 443. The outer side of the second toothed plate 475 is connected to a cross bar 477. The outer side of the cross bar 477 is connected to the second outer shell 451 through two second support rods 478 respectively passing through the first moving groove 48 and the third moving groove 456.

[0038] The output end of the second servo motor 471 drives the rotating shaft 472 and the gear 473 outside it to rotate forward and backward. The first toothed plate 474 and the second toothed plate 475 meshing outside the gear 473 start to move in the directions away from or close to each other. That is, the first toothed plate 474 drives the first inner shell 442 to move up and down through the first support rod 476. At the same time, the second toothed plate 475 drives the second support rod 478 and the second inner shell 452 to move up and down through the cross bar 477. When the first inner shell 442 moves down, the second inner shell 452 moves up, and when the first inner shell 442 moves up, the second inner shell 452 moves down. Thus, when the first inner shell 442 moves down and the second inner shell 452 moves up, the upper arc-shaped pressing strip 444 at the lower end of the first inner shell 442 presses down on the synthetic fiber fabric, and the lower arc-shaped pressing strips 453 at the upper ends of the two second inner shells 452 on both sides of it move up to push and press the synthetic fiber fabric, making the synthetic fiber fabric gradually become taut for toughness strength detection. And when a certain part of the synthetic fiber fabric is pushed and pressed simultaneously in opposite directions by the upper arc-shaped pressing strip 444 and the two lower arc-shaped pressing strips 453, the two sides of the synthetic fiber fabric start to be stretched, so that the synthetic fiber fabric undergoes a length stretching test. At the same time, the switches of the suction fan 445, the formaldehyde detector 446, and the heater 455 are turned on. When the lower arc-shaped pressing strip 453 touches the synthetic fiber fabric, since the heater 455 heats in the inner cavity of the second inner shell 452, multiple heat-absorbing copper sheets 457 on the inner wall of the lower arc-shaped pressing strip 453 quickly absorb heat and conduct the heat to the lower arc-shaped pressing strip 453. The lower arc-shaped pressing strip 453 gradually conducts the heat to the synthetic fiber fabric, and through the designed multiple heat dissipation slots 454, the heat dissipation effect is faster, facilitating the rapid temperature rise of this part of the area of the synthetic fiber fabric, so that the formaldehyde contained in the synthetic fiber fabric is emitted at high temperature. And the suction fan 445 outside the first inner shell 442 sucks air in the direction of the heated area of the synthetic fiber fabric, so that the air containing formaldehyde is sucked into the inner cavity of the first inner shell 442, resulting in the air containing formaldehyde being detected by the formaldehyde detector 446 and the formaldehyde content being detected. Subsequently, the detected data is fed back to the formaldehyde detector device terminal, facilitating the staff to view and record, so as to facilitate the simultaneous progress of the length stretching detection, toughness test, and formaldehyde detection of the synthetic fiber fabric, effectively improving the detection efficiency of the synthetic fiber fabric and enhancing the use effect.

[0039] Three groups of support blocks 49 corresponding to the position of the first moving groove 48 are installed in the inner cavity of the box body 41. Activity columns 410 are movably inserted in the middle of the support blocks 49. The upper ends of one group of activity columns 410 are connected to the first support rod 476, and the lower ends of the other two groups of activity columns 410 are respectively connected to the two second support rods 478. One end of each support block 49 is connected to a spring 411. The other ends of the three groups of springs 411 are respectively connected to one end of one group of first support rods 476 and one end of the two second support rods 478. When the first support rod 476 and the second support rod 478 move in the same direction, the first support rod 476 and the second support rod 478 respectively drive the activity columns 410 to move in the same direction, and at the same time compress the springs 411, which is convenient for the first support rod 476 to drive the first toothed plate 474 and the second support rod 478 to drive the second toothed plate 475 to move stably through the cross bar 477, improving the use effect.

[0040] Limit grooves 10 are provided on the inner walls of the first outer shell 441 and the second outer shell 451. Limit blocks 9 that are slidably connected thereto are connected to the outsides of the first inner shell 442 and the second inner shell 452. When the first inner shell 442 and the second inner shell 45 move up and down in the inner cavities of the first outer shell 441 and the second outer shell 451, the first inner shell 442 and the second inner shell 452 are both limited and slid in the inner cavities of the limit grooves 10 through the limit blocks 9, effectively improving the moving stability effect of the first inner shell 442 and the second inner shell 452.

[0041] A long groove 7 is provided at the upper end of the top plate 3. A driving mechanism 5 is installed at the upper end of the top plate 3. The driving mechanism 5 passes through the long groove 7 and is connected to the detection mechanism 4. The driving mechanism 5 includes a first servo motor 51 installed at the upper end of the top plate 3. The output end of the first servo motor 51 is connected to a lead screw 52. Two threaded blocks 54 are screwed on the outside of the lead screw 52. The lower ends of the threaded blocks 54 pass through the long groove 7 and are connected to the box body 41. A fixed seat 53 rotatably connected to the lead screw 52 is installed at the upper end of the top plate 3.

[0042] By turning on the output end of the first servo motor 51 through an external control switch, the output end of the first servo motor 51 drives the lead screw 52 to rotate, and the threaded blocks 54 on the outside of the lead screw 52 then drive the box body 41 and the entire detection mechanism 4 to move left and right, which is convenient for driving the detection mechanism 4 to perform multi-faceted detection on different positions of the synthetic fiber fabric, effectively improving the use effect. Corresponding sides between the substrate 1 and the top plate 3 are symmetrically provided with chutes 8. One end of the support plate 42 is symmetrically installed with sliding bars 43 that are slidably connected thereto. When the box body 41 drives the support plate 42 to move, the support plate 42 stably slides in the inner cavity of the chute 8 through the sliding bars 43, effectively improving the left and right moving stability effect of the support plate 42 and the entire detection mechanism 4.

[0043] Working principle: In the present invention, an external control switch is connected to a formaldehyde detector 446, a formaldehyde detector 446, a second servo motor 471, a first servo motor 51, and a hydraulic cylinder 62 for on-off control connection. When in use, the two ends of a synthetic fiber fabric are placed between the base 64 and the pressing plate 63 of two fixing mechanisms 6. Subsequently, the hydraulic cylinder 62 is started, and the hydraulic cylinder 62 drives the pressing plate 63 to move downward through a hydraulic rod. The second clamping teeth 67 at the lower end of the pressing plate 63 and the first clamping teeth 65 at the upper end of the base 64 clamp and press both ends of one side of the synthetic fiber fabric. Moreover, the second clamping teeth 67 and the first clamping teeth 65 are meshed and clamped with each other in an alternating manner, which is convenient for improving the fixing effect on the synthetic fiber fabric. At the same time, the pins 68 at the lower end of the pressing plate 63 pierce the synthetic fiber fabric and then insert into the jacks 66 at the upper end of the base 64. Then, the pressing plate 63 and the base 64 clamp and press the synthetic fiber fabric, thereby further improving the pressing and fixing effect on the synthetic fiber fabric. Subsequently, the output end of the second servo motor 471 drives the rotating shaft 472 and the gear 473 on its outer side to rotate, and the first toothed plate 474 and the second toothed plate 475 meshed with the outer side of the gear 473 start to move in a direction approaching each other. That is, the first toothed plate 474 drives the first inner shell 442 to move downward through the first support rod 476. At the same time, the second toothed plate 475 drives the second support rod 478 and the second inner shell 452 to move upward through the cross bar 477. At this time, the upper arc-shaped pressing strip 444 at the lower end of the first inner shell 442 presses down on the synthetic fiber fabric, and the lower arc-shaped pressing strips 453 at the upper ends of the two second inner shells 452 on both sides thereof all move upward to push and press the synthetic fiber fabric, making the synthetic fiber fabric gradually become taut for toughness strength detection. And when a certain part of the synthetic fiber fabric is simultaneously pushed and pressed in opposite directions by the upper arc-shaped pressing strip 444 and the two lower arc-shaped pressing strips 453, both sides of the synthetic fiber fabric start to be stretched, so that the synthetic fiber fabric undergoes a length stretching test. At the same time, the switches of the suction fan 445, the formaldehyde detector 446, and the heater 455 are turned on. When the lower arc-shaped pressing strip 453 contacts the synthetic fiber fabric, since the heater 455 heats in the inner cavity of the second inner shell 452, multiple heat-absorbing copper sheets 457 on the inner wall of the lower arc-shaped pressing strip 453 quickly absorb heat and conduct the heat to the lower arc-shaped pressing strip 453. The lower arc-shaped pressing strip 453 gradually conducts the heat to the synthetic fiber fabric. And through the designed multiple heat dissipation grooves 454, the heat dissipation effect is faster, which is convenient for the temperature of this part of the area of the synthetic fiber fabric to rise rapidly, so that the formaldehyde contained in the synthetic fiber fabric is emitted at high temperature. And the suction fan 445 on the outer side of the first inner shell 442 sucks air in the direction of the heated area of the synthetic fiber fabric, so that the air containing formaldehyde is sucked into the inner cavity of the first inner shell 442. As a result, the air containing formaldehyde is detected by the formaldehyde detector 446, and the formaldehyde content is detected. Subsequently, the detected data is fed back to the formaldehyde detector device terminal, which is convenient for the staff to view and record.Thus, it is convenient to simultaneously perform length stretching detection, toughness testing, and formaldehyde detection on synthetic fiber fabrics, effectively improving the detection efficiency of synthetic fiber fabrics and enhancing the usage effect. By starting the output end of the first servo motor 51, the output end of the first servo motor 51 drives the lead screw 52 to rotate, and then the threaded block 54 on the outer side of the lead screw 52 drives the box body 41 and the entire detection mechanism 4 to move left and right, facilitating the detection mechanism 4 to perform multi-faceted detection on different positions of the synthetic fiber fabric, effectively improving the usage effect.

[0044] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, making equivalent substitutions or changes should be covered within the protection scope of the present invention.

Claims

1. A detection device for synthetic fiber fabric processing, comprising a substrate (1), characterized in that: A top plate (3) is mounted on the upper end of the base plate (1) via a connecting frame (2); a detection mechanism (4) is disposed between the base plate (1) and the top plate (3); a long slot (7) is disposed on the upper end of the top plate (3); a driving mechanism (5) is mounted on the upper end of the top plate (3); the driving mechanism (5) passes through the long slot (7) and is connected to the detection mechanism (4); and a fixing mechanism (6) is symmetrically disposed between the base plate (1) and the top plate (3); The detection mechanism (4) comprises a box (41) connected to the driving mechanism (5), an inspection door (46) is movably installed on the outer side of the box (41), support plates (42) are symmetrically installed on the outer side of the box (41), an upper pressure assembly (44) is installed on the lower end of one of the support plates (42), and a lower pressure assembly (45) is symmetrically installed on the upper end of the other support plate (42), three groups of first movable grooves (48) are arranged on the outer side of the box (41), and a displacement assembly (47) is installed in the inner cavity of the box (41), and one end of the displacement assembly (47) passes through the three groups of first movable grooves (48) and is connected to the upper pressure assembly (44) and the two lower pressure assemblies (45).

2. A detection device for synthetic fiber fabric processing according to claim 1, characterized in that: The driving mechanism (5) comprises a first servo motor (51) mounted on the upper end of the top plate (3); the output end of the first servo motor (51) is connected to a screw rod (52); two threaded blocks (54) are screwed to the outer side of the screw rod (52); the lower end of the threaded block (54) passes through the long slot (7) and is connected to the box body (41); and a fixed seat (53) rotatably connected to the screw rod (52) is mounted on the upper end of the top plate (3).

3. The detection device for synthetic fiber fabric processing according to claim 1, characterized in that: A sliding groove (8) is symmetrically arranged on one side corresponding to the base plate (1) and the top plate (3), and a sliding bar (43) is symmetrically installed at one end of the support plate (42) and is in sliding connection with the support plate (42).

4. The detection device for synthetic fiber fabric processing according to claim 1, characterized in that: The upper pressure assembly (44) includes a first outer shell (441) installed at the lower end of the support plate (42); a first inner shell (442) is movably arranged in the inner cavity of the first outer shell (441); a second movable groove (443) is arranged on the outer side of the first outer shell (441); an upper arc-shaped pressure strip (444) is installed at the lower end of the first inner shell (442); suction fans (445) are symmetrically installed on both sides of the first inner shell (442); and a formaldehyde detector (446) is installed in the inner cavity of the first inner shell (442).

5. The detection device for synthetic fiber fabric processing according to claim 4, characterized in that: The pressing assembly (45) includes a second outer shell (451) installed on the upper end of the support plate (42); a second inner shell (452) is movably provided in the inner cavity of the second outer shell (451); a lower arc-shaped pressure strip (453) is installed at the upper end of the second inner shell (452); a heater (455) is equidistantly installed at the bottom end of the inner cavity of the second inner shell (452); and a third movable groove (456) is provided on the outer side of the second outer shell (451).

6. A detection device for synthetic fiber fabric processing according to claim 5, characterized in that: Heat dissipation grooves (454) are equidistantly arranged on the outer side of the lower arc-shaped pressure strip (453), and heat-absorbing copper sheets (457) are equidistantly connected to the inner cavity of the lower arc-shaped pressure strip (453).

7. The detection device for synthetic fiber fabric processing according to claim 5, characterized in that: The displacement assembly (47) includes a second servo motor (471) installed in the inner cavity of the box body (41) through a mounting plate, the output end of the second servo motor (471) is connected to a rotating shaft (472), the outer side of the rotating shaft (472) is installed with a gear (473), the two sides of the gear (473) are respectively meshed with a first tooth plate (474) and a second tooth plate (475), the outer side of the first tooth plate (474) is connected to the first inner shell (442) after passing through the first moving groove (48) and the second moving groove (443) through a first support rod (476), the outer side of the second tooth plate (475) is connected to a cross bar (477), the outer side of the cross bar (477) is connected to the second outer shell (451) after passing through the first moving groove (48) and the third moving groove (456) through two second support rods (478).

8. The detection device for synthetic fiber fabric processing according to claim 7, characterized in that: The inner cavity of the box body (41) is installed with three groups of support blocks (49) corresponding to the position of the first movable groove (48), and the middle part of the support blocks (49) is movably connected with a movable column (410), wherein the upper end of one group of the movable columns (410) is connected to the first support rod (476), and the lower ends of the other two groups of the movable columns (410) are respectively connected to the two second support rods (478), and one end of the support blocks (49) is connected to a spring (411), and the other ends of the three groups of springs (411) are respectively connected to one end of one group of the first support rod (476) and one end of the two groups of the second support rods (478).

9. The detection device for synthetic fiber fabric processing according to claim 1, characterized in that: The fixing mechanism (6) comprises a mounting seat (61) mounted at the lower end of the top plate (3); a hydraulic cylinder (62) is symmetrically mounted at the lower end of the mounting seat (61); the hydraulic cylinders (62) are connected to a pressing plate (63) via a hydraulic rod; a base (64) is mounted at the upper end of the base plate (1); a first clamping tooth (65) is arranged at the upper end of the base (64); a plug hole (66) is equidistantly arranged at the upper end of the base (64); a second clamping tooth (67) is arranged at the lower end of the pressing plate (63); and a plug pin (68) is equidistantly arranged at the lower end of the pressing plate (63).

10. The detection device for synthetic fiber fabric processing according to claim 5, characterized in that: The inner walls of the first outer shell (441) and the second outer shell (451) are both provided with limiting grooves (10), and the outer sides of the first inner shell (442) and the second inner shell (452) are both connected with limiting blocks (9) that are slidably connected thereto.

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